F8I-DISSMRAADigivance Indoor Coverage Solution System

ADCP-75-136 Issue 1 November 2002 1238258 Rev A Digivance ™ Indoor Coverage Solution SMR + Single- or Multi-Mode Fiber System Installation and Operation Manual FCC ID: F8I-DISSMRAA, user manual, part 1 of 4 ADCP-75-136 Issue 1 November 2002 Digivance ™ Indoor Coverage Solution SMR + Single or Multi-Mode Fiber System Installation and Operation Manual 1238258 Rev A ADCP-75-136 • Issue 1 • November 2002 • Preface Page ii COPYRIGHT  2002, ADC Telecommunications, Inc. All Rights Reserved Printed in the U.S.A. REVISION HISTORY ISSUE DATE REASON FOR CHANGE Issue 1 11/2002 Original TRADEMARK INFORMATION ADC and FiberGuide are registered trademarks of ADC Telecommunications, Inc. Digivance is a trademark of ADC Telecommunications, Inc. LC is a trademark of Lucent Technologies Inc. TORX is a registered trademark of Textron, Inc. IDEN is a registered trademark of Motorola, Inc. DISCLAIMER OF LIABILITY Contents herein are current as of the date of publication. ADC reserves the right to change the contents without prior notice. In no event shall ADC be liable for any damages resulting from loss of data, loss of use, or loss of profits and ADC further disclaims any and all liability for indirect, incidental, special, consequential or other similar damages. This disclaimer of liability applies to all products, publications and services during and after the warranty period. This publication may be verified at any time by contacting ADC’s Technical Assistance Center at 1-800-366-3891, extension 73475 (in U.S.A. or Canada) or 1-952-917-3475 (outside U.S.A. and Canada), or by e-mail to [email protected]. ADC Telecommunications, Inc. P.O. Box 1101, Minneapolis, Minnesota 55440-1101 In U.S.A. and Canada: 1-800-366-3891 Outside U.S.A. and Canada: (952) 938-8080 Fax: (952) 917-1717 ADCP-75-136 • Issue 1 • November 2002 • Preface Page iii  2002, ADC Telecommunications, Inc. TABLE OF CONTENTS Content Page 1 SYSTEM FUNCTIONAL OVERVIEW..........................................................1 1.1 Basic System Components.........................................................1 1.2 Interface With BTS..............................................................1 1.3 Interface With Cellular Phones......................................................1 1.4 Digital Fiber Optic Transport.......................................................2 1.5 Capacity for Expansion and Extended Runs..............................................3 1.6 Power Requirements............................................................3 1.7 Fault Detection and Alarm Reporting..................................................3 2 DIGITAL UNIT DESCRIPTION.............................................................4 2.1 Digital Host Unit Description.......................................................4 2.2 Digital Remote Unit Description.....................................................7 2.3 Digital Expansion Unit Description...................................................10 2.4 Terms and Definitions............................................................13 2.5 Specifications.................................................................13 3 INSTALLATION PLANNING AND SYSTEM DESIGN................................................16 3.1 Base Station Interface Requirements..................................................16 3.2 Locating and Mounting Requirements.................................................17 3.3 Powering Requirements..........................................................18 3.4 Optical Options and Requirements...................................................19 3.5 Coaxial Cable Requirements.......................................................20 3.6 System Expansion Planning........................................................21 3.7 DRU Antenna Options............................................................21 3.8 External Alarm System Reporting Requirements..........................................22 3.9 Maintenance Requirements........................................................23 3.10 System Design Recommendations...................................................23 4 DIGITAL HOST UNIT INSTALLATION PROCEDURE................................................26 4.1 System Plan Review and Pre-Installation Cable Routing.....................................26 4.2 Tools and Materials.............................................................26 4.3 Unpacking and Inspection.........................................................27 4.4 Mounting Procecure............................................................27 4.5 Chassis Ground Connections.......................................................30 4.6 Coaxial Cable Connections........................................................31 4.7 Modular Optical Transceiver Installation...............................................32 4.8 Ports 1–6 Optical Connections......................................................33 4.9 DC Power Connections...........................................................35 4.10 External Alarm System Connections..................................................36 4.11 AC Power Connections...........................................................37 4.12 Create As-Built Drawing..........................................................38 5 SYSTEM OPERATION..................................................................39 5.1 Tools and Materials.............................................................39 5.2 Turn-Up System and Verify Operation.................................................39 (continued) ADCP-75-136 • Issue 1 • November 2002 • Preface Page iv  2002, ADC Telecommunications, Inc. TABLE OF CONTENTS Content Page 5.3 Test System Performance.........................................................42 6 SYSTEM MAINTENANCE PROCEDURES......................................................43 6.1 Tools and Materials ............................................................43 6.2 Fault Detection and Alar…

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ADCP-75-136 • Issue 1 • November 2002 Page 7 © 2002, ADC Telecommunications, Inc. (2) AC POWER CORD CONNECTOR (3) AC POWER ON/OFF SWITCH (1) GROUND STUD (4) OPTICAL PORT LED INDICATOR (6 PLACES) (5) OPT/ELEC PORT ENABLE/DISABLE SWITCH (6 PLACES) (6) ELECTRICAL PORT DC POWER JACK (6 PLACES) (7) OPTICAL PORT OPTICAL TRANSCEIVER TX-LEFT - RX-RIGHT (6 PLACES) (8) UNIT LED INDICATOR (11) RF INPUT CONNECTOR (9) OVERDRIVE LED INDICATOR (10) ALARM CONNECTOR RECEPTACLE (12) RF OUTPUT CONNECTOR 17264-A NOTE: SHOWN WITHOUT CABLE MANAGEMENT TRAY Figure 3. Digital Host Unit User Interface 2.2 Digital Remote Unit Description The DRU, shown in Figure 4, serves as the cellular-user servicing unit for the Digivance ICS. The DRU provides the following basic functions: • RF interface to the cellular users via an external antenna • Optical interface to the DHU or DEU • Conversion of the forward path digitized optical signal to a digitized RF signal • Conversion of the digitized forward path RF signal to the original cellular RF signal • Digitizing of the cellular reverse path RF signal • Conversion of the digitized reverse path RF signal to a digital optical signal output • Transports alarm status over the reverse path optical fiber FRONT PANEL MOUNTING FOOT (EACH CORNER) 7.0 INCHES (178 mm) 7.3 INCHES (185 mm) 2.1 INCHES (53 mm) 17268-A Figure 4. Digital Remote Unit FCC ID: F8I-DISSMRAA, Partial User Manual, 2 of 4 ADCP-75-136 • Issue 1 • November 2002 Page 8 © 2002, ADC Telecommunications, Inc. 2.2.1 Primary Components The DRU consists of an electronic circuit board assembly that is mounted within a powder- coated sheet metal enclosure. The metal enclosure provides a mounting point for the electronic assembly, serves as a heat sink, and controls RF emissions. Except for the optical transceiver, the DRU components are not field replaceable. The DRU is designed for use within a non- condensing indoor environment such as inside a building. All controls, connectors, and indicators (except the SMA antenna connector) are mounted on the DRU front panel for convenient access. 2.2.2 Mounting The DRU is equipped with four integral mounting feet that allow it to be mounted on any flat horizontal or vertical surface. A typical location for mounting the DRU would be on a ceiling or a wall. The DRU may also be installed in spaces used for environmental air such as the space over a suspended ceiling or beneath a raised floor. Slots are provided in the mounting feet for securing the DRU to the mounting surface. 2.2.3 Fault Detection The DRU detects internal circuitry faults or loss of system inputs. A front panel LED indicator turns from green to red when a fault condition is detected or when the optical input is lost. The DRU sends the fault information to the DHU or DEU over the reverse path optical fiber. A corresponding port LED at the DHU or DEU turns from green to red when the DRU reports a fault. 2.2.4 Antenna Connection The RF signal interface between the DRU and the cellular users is provided through an external antenna. An SMA connector is provided for connecting the DRU to the antenna. The antenna must be ordered separately. Several types of antennas with various RF propagations are available. Non-ADC antennas may also be used with the DRU to meet various application requirements. 2.2.5 Optical Port The DRU is equipped with a small form factor LC-type optical transceiver for connecting the optical fibers. Each transceiver is color-coded to identify whether it supports single-mode (blue) or multi-mode (black/beige) fiber. Depending on the application requirements, the optical port may be connected to either a DHU or a DEU. The modular optical transceiver is available separately as an accessory item and is field replaceable. 2.2.6 Powering The DRU is equipped with a female RJ-45 jack that provides a connection point for the DC power cable. The DRU is powered by 34–48 Vdc power which is supplied through the RJ-45 ADCP-75-136 • Issue 1 • November 2002 Page 9 © 2002, ADC Telecommunications, Inc. connector. Power to the DRU may be supplied by the DHU, DEU, or by a 120 Vac to 48 Vdc power converter (available separately as an accessory item) plugged into a properly grounded 120 Vac outlet. The ac/dc converter is a UL Listed stand-alone Limited Power Supply (LPS) unit with a rated output of 48 Vdc at 1.2 Amps. When powered by the DHU or DEU, a category 3 or 5 twisted-pair cable terminated with RJ-45 connectors is required. 2.2.7 Cooling The DRU is cooled by natural convection air flow. The DRU mounting feet are designed to provide clearance under the unit so that air can enter the DRU enclosure from the bottom and exit through the top. A minimum clearance of 3 inches (76 mm) must be provided on all sides of the DRU (except the bottom) to ensure there is adequate air circulation for cooling. In addition, at least one surface of the DRU installation area must be open to the interior of the building. 2.2.8 User Interface The DRU user interface consists of the connectors and the LED that are provided on the DRU front and rear panels. The DRU user interface points are described in Table 2 and indicated in Figure 5. Table 2. Digital Remote Unit User Interface REF No. USER INTERFACE DESIGNATION DEVICE FUNCTIONAL DESCRIPTION 1 STATUS Multi-colored LED (Red/Green/Yellow) Indicates if the status of the DRU is normal or faulty or if the forward path optical input is normal or lost. (see Note) 2 48 VDC RJ-45 jack (female) Used for connecting a DC power cable. 3 FIBER TX RX LC-type optical transceiver Used for connecting the forward path and reverse path optical fibers. 4 – SMA-type coaxial connector (female) Used for connecting the antenna coaxial cable lead. Note: A more detailed description of LED operation is provided in Section 5. 17269-A REAR VIEWFRONT VIEW (4) ANTENNA CONNECTOR (1) STATUS LED (2) 48 VDC POWER CONNECTOR (3) FIBER LINK OPTICAL ADAPTERS TX-LEFT - RX-RIGHT Figure 5. Digital Remote Unit User Interface ADCP-75-13…

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ADCP-75-136 • Issue 1 • November 2002 Page 33 © 2002, ADC Telecommunications, Inc. 5. Insert the optical transceiver into the socket until it locks into place. 6. Replace the optical transceiver dust cap if it was removed for installation. 7. Repeat procedure for each optical transceiver that requires installation. 8. Install a port cover (see Figure 18) over each unused optical transceiver socket. 4.8 Ports 1–6 Optical Connections The optical interface between the DHU and each DEU or DRU is supported by six optical ports. Each of the six optical ports provides a duplex LC-type optical transceiver which is mounted on the DHU front panel. One side of the transceiver provides the optical fiber connection for the forward path (downlink) signal. The other side of the transceiver provides the optical fiber connection for the reverse path (uplink) signal. Use the following procedure to install the forward and reverse path optical fibers and to connect them to the DHU: Danger: This equipment uses a Class 1 Laser according to FDA/CDRH rules. Laser radiation can seriously damage the retina of the eye. Do not look into the ends of any optical fiber. Do not look directly into the optical transceiver of any digital unit or exposure to laser radiation may result. An optical power meter should be used to verify active fibers. A protective cap or hood MUST be immediately placed over any radiating transceiver or optical fiber connector to avoid the potential of dangerous amounts of radiation exposure. This practice also prevents dirt particles from entering the transceiver or connector. 1. Obtain the required lengths of single- or multi-mode fiber optic cable. 2. Route the fiber optic cable between the DHU and the DEU or DRU (if not already routed) and cut to required length. Allow sufficient slack for dressing and organizing the cables at each unit. Maintain a minimum bend radius of 2 inches (50 mm). Note: The maximum path lengths for the optical fibers are as follows: 500 meters (1,641 feet) for 62.5 micron core multi-mode fiber, 750 meters (2,461 feet) for 50 micron core multi-mode fiber, and 10 km (32,808 ft) for 9 micron core single-mode fiber. 3. Terminate each optical fiber with a field-installable LC type fiber optic connector as shown in Figure 19. Follow the instructions provided by the connector manufacturer for installing the connector. 4. Test each fiber for optical loss as described in Subsection 6.4.2 of this manual. 5. Designate one of the fibers as the forward path fiber and the other as the reverse path fiber and label both ends of each fiber with the path designation. 6. Use the plastic joiner provided with the LC connectors to join the DHU Port 1 forward and reverse path connectors together (see Figure 19). Make sure the forward path and reverse path connectors are oriented as shown. Note: When viewing any Port 1-6 optical transceiver from the front, the forward path port is on the left and the reverse path port is on the right as shown in Figure 20. In addition, single- mode transceivers are colored blue and multi-mode transceivers are colored black or beige. Both single- and multi-mode transceivers may be mounted on the same DHU. FCC ID: F8I-DISSMRAA, Partial User Manual, 3 of 4 ADCP-75-136 • Issue 1 • November 2002 Page 34 © 2002, ADC Telecommunications, Inc. 17274-A REVERSE PATH (RX) CONNECTOR FORWARD PATH (TX) CONNECTOR OPTICAL CONNECTOR ASSEMBLY DETAIL PORT 1 OPTICAL TRANSCEIVER OPTICAL CONNECTOR CABLE GUIDES CABLE GUIDE DETAIL DESIGNATION CARD AND HOLDER DETAIL HOLDER CARD CLEAR PLASTIC COVER Figure 19. Ports 1–6 Fiber Optic Cable Connections 17150-A DETAIL DRAWING OF OPTICAL PORT REVERSE PATH (RX) FORWARD PATH (TX) DUST CAP (LEAVE IN PLACE UNTIL READY TO INSTALL CONNECTOR) TRANSCEIVER COLOR CODE BLUE = SINGLE-MODE (9 MICRON) BLACK/ BEIGE = MULTI-MODE (50 OR 62.5 MICRON) Figure 20. Optical Transceiver Designations ADCP-75-136 • Issue 1 • November 2002 Page 35 © 2002, ADC Telecommunications, Inc. 7. Remove the dust caps from the optical fiber connectors and the port 1 optical transceiver. Note: Leave the dust cap in place on any unused optical transceiver. 8. Clean each connector (follow connector supplier’s recommendations) and then insert the optical fiber connector pair into DHU optical port 1 (see Figure 19). 9. Place the optical fibers within the cable guides provided on the cable management tray (see Figure 19) and then dress and secure the fibers at the DHU per standard industry practice. 10. Connect the forward and reverse path optical fibers to the DEU or the DRU as specified in the instructions provided with that unit. 11. Use the designation card provided (see Figure 19) to indicate the location and name of the DRU or DEU that is connected to each optical fiber pair. The designation card holder may be attached to any convenient flat surface such as the DHU cable management tray 12. Repeat steps 1–11 for each remaining optical port. 4.9 DC Power Connections The DC power interface between the DHU and each DRU is supported by six RJ-45 female connectors. Each DHU RJ-45 connector provides nominal 48 Vdc power for the associated DRU except when the DRU is powered with an ac/dc converter. A category 3 or 5 twisted pair cable is used to feed the power from the DHU to the DRU. Use the following procedure to install the DC power cable and to connect it to the DHU. 1. Obtain the required length of category 3 or 5 twisted pair cable. 2. Route the cable between the DHU and the DRU (unless already routed) and then cut to required length. Allow sufficient slack for dressing and organizing the cable at the DHU. Note: The maximum distance for routing power cable is 500 meters (1,641 feet). 3. Terminate each end of the cable with a male RJ-45 connector. Match the wire color to the connector pin as specified in Table 6. Caution: The DRU will be damaged if the RJ-45 connector is wired incorrectly. 4. Perform a continuity test to verify that each wire is properly connected to the termin…

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ADCP-75-136 • Issue 1 • November 2002 Page 53 © 2002, ADC Telecommunications, Inc. 3. Connect the DC power cable to the RJ-45 circuit access tool (see Figure 28). 4. Using a DC voltmeter, verify that the DC voltage level is between 34 and 48 Vdc between any set of positive and negative (+/-) terminals at the RJ-45 circuit access tool as shown in Figure 29. Due to source current limiting at the DHU or DEU, low voltage can mean excess wire resistance, low source voltage, or excess remote current. Warning: The DRU uses 48 Vdc power. To avoid electric shock or burns, use extreme care when working near exposed terminals or uninsulated cables. Be careful not to touch exposed terminals or to cause a short between terminals when checking voltage levels. 16206-B POSITIVE (+) TEST POINTS 1, 3, 5, AND 7 NEGATIVE (-) TEST POINTS 2, 4, 6, AND 8 Figure 29. RJ-45 Circuit Access Tool Pin/Wire Designations 5. Disconnect RJ-45 circuit access tool from the DRU. 6. Use the DC voltmeter to check for open pin connections by checking for voltage between the +/– pairs on the RJ-45 circuit access tool (see Figure 29). 7. Disconnect the DC power cable from the RJ-45 circuit access tool. 8. Re-connect DC power cable to the DRU. 6.5 DHU or DEU Fan Replacement Procedure It is recommended that the fans (catalog # DGVI-100000FAN) be replaced every five years. Replacement of a fan requires that the DHU or DEU be turned off for a short period of time. This will drop all existing calls, cause a temporary loss of service, and generate a major alarm. Use the following procedure to replace the cooling fans within the DHU or the DEU: 1. Before touching the DHU or DEU or handling a fan, slip on an Electro-Static Discharge (ESD) wrist strap and connect the ground wire to an earth ground source. Wear the ESD wrist strap while completing each section of the fan installation procedure. Warning: Electronic components can be damaged by static electrical discharge. To prevent ESD damage, always wear an ESD wrist strap when working on the DHU or DEU and when handling electronic components. 2. Observe the fans (located on right side of enclosure) to determine which fan requires replacement. The faulty fan may be stopped, running at a reduced speed, or the fan bearing may be noisy. Note: Because the Mean Time Between Failures (MBTF) is the same for both fans, it may be more efficient to replace both fans at the same time. FCC ID: F8I-DISSMRAA, Partial User Manual, 4 of 4 ADCP-75-136 • Issue 1 • November 2002 Page 54 © 2002, ADC Telecommunications, Inc. 3. Notify the NOC or alarm monitoring system operator that the system is going offline. 4. Place the DHU or DEU AC power On/Off switch (see Figure 3 or Figure 7) in the OFF position (press O). 5. Remove the six flat-head screws (requires TORX screwdriver with T15 bit) that secure the fan/grill assembly to the side of the enclosure as shown in Figure 30 and save for reuse. 16172-B Figure 30. Fan/Grill Assembly Removal 6. Carefully withdraw the fan/grill assembly from the enclosure until the wiring harness is exposed and the connectors are accessible. 7. Lift the small latch on each wiring harness connector (see Figure 30) and carefully unplug each connector from the circuit board connector. 8. Remove the four plastic rivets that secure the faulty fan to the grill by pushing outward on rivet center post until the rivet can be withdrawn from the grill as shown in Figure 31. 9. Remove the faulty fan(s) from the grill and then locate the replacement fan(s). 10. Use the rivets removed in step 8 to secure the replacement fan to the grill. Orient the fan so the wiring harness is on the top and the arrow on the fan housing faces into the enclosure. 11. Connect the two wiring harness connectors to the circuit board connectors. 12. Secure the fan/grill assembly to the side of the enclosure (see Figure 30) using the six flat-head screws removed in step 5. ADCP-75-136 • Issue 1 • November 2002 Page 55 © 2002, ADC Telecommunications, Inc. 16173-B Figure 31. Removing Fan From Grill 13. Place the DHU or DEU AC power On/Off switch in the ON position (press I). 14. Verify that the fans run properly following power up. 15. Notify the NOC or alarm monitoring system operator that the system is going back online. 6.6 DHU or DEU Modular Optical Transceiver Replacement Procedure The modular optical transceiver should be replaced when testing indicates that the transceiver has failed. Use the following procedure to replace an optical transceiver in a DHU or DEU: Danger: This equipment uses a Class 1 Laser according to FDA/CDRH rules. Laser radiation can seriously damage the retina of the eye. Do not look into the ends of any optical fiber. Do not look directly into the optical transceiver of any digital unit or exposure to laser radiation may result. An optical power meter should be used to verify active fibers. A protective cap or hood MUST be immediately placed over any radiating transceiver or optical fiber connector to avoid the potential of dangerous amounts of radiation exposure. This practice also prevents dirt particles from entering the transceiver or connector. 1. Put on the IR filtering safety glasses. 2. Slip on an Electro-Static Discharge (ESD) wrist strap and connect the ground wire to an earth ground source such as the grounding stud on the DHU or DEU front panel. Wear the ESD wrist strap while completing the optical transceiver replacement procedure. Warning: Electronic components can be damaged by static electrical discharge. To prevent ESD damage, always wear an ESD wrist strap when handling electronic components. 3. Place the PORT ON/OFF switch for the optical transceiver being replaced in the OFF position (press O). ADCP-75-136 • Issue 1 • November 2002 Page 56 © 2002, ADC Telecommunications, Inc. Note: The HOST PORT on the DEU does not have an On/Off switch and can only be disabled by placing the DEU AC power On/Off switch in the OFF position (press O). Turning off the power to the DEU will …

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FCC ID: F8I-DISSMRAA FCC ID: F8I-DISSMRAA

FCC ID: F8I-DISSMRAA Page 1 of 10 FCC ID: F8I-DISSMRAA Page 2 of 10 FCC ID: F8I-DISSMRAA Page 3 of 10 FCC ID: F8I-DISSMRAA Page 4 of 10 FCC ID: F8I-DISSMRAA Page 5 of 10 FCC ID: F8I-DISSMRAA Page 6 of 10 FCC ID: F8I-DISSMRAA Page 7 of 10 FCC ID: F8I-DISSMRAA Page 8 of 10 FCC ID: F8I-DISSMRAA Page 9 of 10 FCC ID: F8I-DISSMRAA Page 10 of 10

The FCC ID for this submittal is F8I-DISSMRAA FCC ID: F8I-DISSMRAA FCC ID: F8I-DISSMRAA NOTE: See the following pages for close-ups of components without labels.

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FCC ID: F8I-DISSMRAA Page 1 of 4 FCC ID: F8I-DISSMRAA Page 2 of 4 FCC ID: F8I-DISSMRAA Page 3 of 4 FCC ID: F8I-DISSMRAA Page 4 of 4

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FCC ID: F8I-DISSMRAA Page 1 of 10 NOTE: See the following pages for close-ups of components without labels. FCC ID: F8I-DISSMRAA Page 2 of 10 FCC ID: F8I-DISSMRAA Page 3 of 10 FCC ID: F8I-DISSMRAA Page 4 of 10 FCC ID: F8I-DISSMRAA Page 5 of 10

PRODUCT SERVICE TEST RESULT SUMMARY FCC PART 90 MANUFACTURER'S NAME ADC, Incorporated NAME OF EQUIPMENT Digivance Indoor Coverage Solution - SMR System TYPE OF EQUIPMENT Digivance ICS is a digitally distributed antenna system that provides in-building coverage for wireless phone systems. MODEL NUMBER DGVI-2XXXXXDHU DGVI-2XXXXXDRU MANUFACTURER'S ADDRESS P. O. Box 1101 Minneapolis MN 55440-1101 TEST REPORT NUMBER NC205189 TEST DATE 08 October 2002 According to testing performed at TÜV Product Service Inc, the above-mentioned unit is in compliance with the electromagnetic compatibility requirements defined in FCC Part 90. It is the manufacturer's responsibility to assure that additional production units of this model are manufactured with identical electrical and mechanical characteristics. Any modifications necessary for compliance made during testing on the above mentioned date(s) must be implemented in all production units for compliance to be maintained. TÜV Product Service Inc, as an independent testing laboratory, declares that the equipment tested as specified above conforms to the requirements of FCC Part 90. Date: 21 October 2002 Location: Taylors Falls MN G. S. Jakubowski J. T. Schneider USA Test Engineer Chief Engineer TÜV Product Service Inc is a subcontractor to TÜV Product Service, GmbH according to the principles outlined in ISO/IEC Guide 25 and EN 45001. TÜV Product Service Inc reports apply only to the specific samples tested under stated test conditions. It is the manufacturer's responsibility to assure that additional production units of this model are manufactured with identical electrical and mechanical components. TÜV Product Service Inc shall have no liability for any deductions, inferences or generalizations drawn by the client or others from TÜV Product Service Inc issued reports. This report is the confidential property of the client. As a mutual protection to our clients, the public and ourselves, extracts from the test report shall not be reproduced except in full without our written approval. This report shall not be used by the client to claim product endorsement by NVLAP or any agency of the US government. TÜV Product Service Inc and its professional staff hold government and professional organization certifications and are members of AAMI, ACIL, AEA, ANSI, IEEE, NVLAP, and VCCI Not Transferable FCC ID: F8I-DISSMRAA File No. NC205189, Page 1 of 74 TÜV PRODUCT SERVICE INC 19333 Wild Mountain Road Taylors Falls MN 55084-1758 Tel: 651 638 0297 Fax: 651 638 0298 Rev.No 1.0 PRODUCT SERVICE EMC EMISSION - T E S T R E P O R T Test Report File Number: NC205189 Date of Issue: 21 October 2002 D I R E C T O R Y Page(s) Exhibit A EIRP Test Data 2 Exhibit B Occupied Bandwidth Test Data 3 - 9 Exhibit C Spurious Conducted Emissions Test Data (FCC Section 90.669) 10 - 27 Exhibit D Spurious Radiated Emissions Test Data 28 - 38 Exhibit E AC Powerline Conducted Emissions Test Data 39 - 41 Exhibit F Frequency Stability Test Data (FCC Section 90.213) 42 Exhibit G Emission Mask Test Data (FCC Section 90.691) 43 - 46 Exhibit H Inter-Modulation Test Data 47 - 65 Exhibit I Test Equipment List 66 - 67 Exhibit J Product Information 68 - 73 Exhibit K Test Measurement Info 74 Effective Isotropic Radiated Power Limit Test for ADC Inc Digivance Indoor Coverage Solution Model Numbers DGVI-2XXXXXDHU and DGVI-2XXXXXDRU *Note: The EUT is a fixed repeater and not a base station. This measurement was made as a direct conducted emis…

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